Silabus Kurikulum Elk

Kurikulum/Curriculum ITS : 20

09‐201

4

1

SILABUS KURIKULUM/COURSE SYLLABUS Elektronika

MATA KULIAH/ COURSE TITLE

TE091441: Teknik Akuisisi Data TE091441: Data Acquisition Technique Credits: 4Semester: V

TUJUAN PEMBELAJARAN/ LEARNING OBJECTIVES

Mahasiswa memahami dan mampu merealisasikan sistem pengkondisi sinyal analog yang berasal dari output transduser, memahami dan mampu merealisasikan sistem konversi sinyal analog ke digital (ADC) dan pemrosesan serta komunikasi data digital hasil konversi tersebut dengan program komputer. To have understanding of methods of and to have ability in: realizing analog signal conditioning system, realizing analog to digital conversion system, signal processing and communcation system.

KOMPETENSI/ COMPETENCY

• Mahasiswa memahami teknik pengkondisian sinyal output transduser dan mampu merealisasikan sistem pengkondisian untuk berbagai jenis sinyal

• Mahasiswa memahami berbagai metode dalam analog to digital convertion (ADC), mengetahui komponen‐komponen ADC dan mampu menerapkannya dalam praktek akusisi data.

• Mahasiswa memahami dan mampu merealisasikan teknik pemrosesan sinyal digital untuk meningkatkan kualitas sinyal, dan mengkomunikasi sinyal tersebut dalam sistem terdistribusi.

• To have understanding of various analoig signal condition techniques.

• To have understanding of various methods in analog to digital convertion (ADC), ADC components, and to have ability to apply the understanding in practical use.

• To have understanding of digital signal processing techniques and to have a capability in realizing them for enhancing signal quality, and to communicate the signals in a distibuted system.

POKOK BAHASAN/

• Trasduser dan karakteristiknya, pengkondisian sinyal kecil, isolasi, analog filtering, sampling, ADC, DAC, pemrograman ADC dan DAC, disain filter digital, sistem komunikasi data serial, penugasan


09‐201

4

2

SUBJECTS rancangan sistem akuisisi data.

• Trasdusers, small signal conditiong, isolations, analog filtering, sampling, ADC, DAC, programming techniques to drive ADC and DAC, designs of digital fiter, serial data communication system, assignment of data acquition system design

PUSTAKA UTAMA/ REFERENCES

• Joseph J Carr, Sensor and Circuits, Prentice Hall Inc., 1993. • Instrumentation Amplifier Application Guide, Charles Kitchin and

Lew Counts, Analog Device, 1992. • Data Acquisition Handbook, Analog Device. • Data Acquisition Data Book, Nat Inst. • Digital Signal Analysis, Samuel D Stearns and Don R Hush, Prentice

Hall Inc, 1990.


09‐201

4

3


TE091443: Sensor dan Aktuator TE091443: Sensor and Actuator Credits: 4Semester: V


Mahasiswa mampu memahami konsep dasar desain, menganalisa sistem dan aplikasi sensor‐transduser dan aktuator. to understand the basic concepts of design, analysis and application of sensor systems, transducers & actuators


• Mahasiswa mampu memahami konsep dasar desain sensor melalui pendekatan fenomena dan analogi bahan sensor,

• Mahasiswa mampu memahami konsep dasar desain transduser melalui pendekatan fenomena dan analogi bahan transduser,

• Mahasiswa mampu membuat prototype transduser sederhana dari bahan sensor yang bersifat Resistif(R), Induktif(L) dan Kapasitif(C),

• Mahasiswa mampu memahami konsep dasar aktuator. • Mahasiswa mampu merencanakan dengan tepat sistim sensor dan

aktuator pada berbagai bidang aplikasi.

• Students are able to understand the basic concepts of sensor design approach and the analogy phenomena sensor materials,

• Students are able to understand the basic concept of transducer design through analogy approach and the phenomenon of the transducer material,

• Students are able to make a simple prototype of the transducer material is a resistive sensor (R), Inductive (L) and capacitive (C),

• Students are able to understand the basic concept of the actuator, • Students are able to plan properly the sensor and actuator systems

in various fields of application. •

POKOK BAHASAN/ SUBJECTS

• Definisi transduser, sensor, actuator, probe, dan elektroda • Metode pengukuran langsung, tidak langsung, dan infrensial • Konsep desain sensor & transduser aktif; Desain sensor dan

transduser aktif dari bahan sensor resistif, induktif, dan kapasitif • Desain sensor, transduser dan system alat ukur level ketinggian,

temperature, kelembaban, angular, akselerasi, dan inclinometer • Tugas desain sensor dan transduser • Aktuator elektrik dan mekanik • Prinsip dasar perambatan gelombang akustik pada medium gas,


09‐201

4

4

cair, padat 2 medium yang berbeda, dan pada 3 medium yang berbeda; Desain alat aplikasi gelombang ultrasonik untuk pengukuran jarak, kepadatan benda, level ketinggian, dan flowmeter zat cair

• Sistem pemantauan hidroklimatologi; Sistem telemetering DAM (SISTELDAM).

• Definition of transducers, sensors, actuators, probes, and electrodes; method of direct measurement, indirect, and infrensial; concept design active sensors & transducers; Design of active sensors and transducers of the sensor material resistive, inductive, and capacitive; Design sensors, transducers and systems level meter altitude, temperature, humidity, angular, acceleration, and inclinometer; Duty sensor and transducer design; electrical and mechanical actuators; principle of acoustic wave propagation in the medium of gas, liquid, solid 2 different medium, and at 3 different medium ; Design ultrasound application device for measuring distances, the density of objects, level of altitude, and the liquid flowmeter; hidroklimatologi monitoring system; telemetering system DAM (SISTELDAM).


• Joseph J.Carr, Sensor and Circuits: Sensors, Transducers, and Suporting Circuits for Electronic Instrumentation, Measurement and Control, New Jersey, T R Prentice Hall, Englewood Cliffs, 1993

• R C Asher, Ultrasonic Sensors: Ultrasonic Sensors for Chemical and Process Plant, IOP Publishing Ltd., 1997

• L E Kinsler, Fundamental of Acoustics, Second Edition, Wiley Eastern Limited, John Wiley & Sons, Inc New York, Chichester, Brisbance and Toronto © 1950, 1962.

• Frederick W. Kremkau, Diagnostic Ultrasound: Principles, Instrumentation, and Exercises, Second Edition, Grune & Stration, Inc. © 1984

• Barry E Jones, Instrumentation Measurement and Feedback, TMH Edition, McGraw‐Hill Book Company (UK) Limited, © 1978.

• Bela G.Liptak, Kriszta Venczel, Process Measurement: Instrument Engineers Handbook, Revised Edition, Bela G, Liptak © 1969.


09‐201

4

5


TE091445: Rangkaian Pulsa TE091445: Pulse Circuit Credits: 4Semester: V


Mahasiswa memahami permasalahan dalam disain rangkaian dengan input pulsa serta prosedur perancangan rangkaian dengan input pulsa


• Mahasiswa dapat membaca dan memahami datasheet (electrical characteristic) dari komponen pasif dan aktif seperti resistor, kapasitor, dioda, transistor, Op Amp dan IC digital

• Mahasiswa dapat menggunakan komponen pasif dan aktif seperti resistor, kapasitor, dioda, transistor, Op Amp dan IC digital secara praktis (tidak ideal)

• Mahasiswa dapat melakukan perancangan untuk gabungan sistem analog dan digital


• Bentuk gelombang: Tipe gelombang, Karakteristik gelombang pulsa, Harmonisa gelombang

• Rangkaian RC: Operasi Rangkaian RC,Persamaan Rangkaian RC,Respon Rangkaian RS terhadap gelombang kotak, Rangkaian Integrator, Rangkaian Differensiator,Efek pembebanan pada rangkaian integrator dan differensiator

• Diode Switching: Diode sebagai switching, Diode zener,Rangkaian clipper, Rangkaian clamper, Rangkaian pengali tegangan

• Transistor switching: Transistor ideal sebagai switch, Transistor praktis sebagai switch, Pewaktuan transistor switch, Memperbaiki pewaktuan transistor switch, Switch dengan JFET, Switch dengan MOSFET, Switch dengan CMOS

• Rangkaian Inverter dan IC differensiator: Direct Coupled Bipolar Transistor Inverter, Capacitor Coupled Inverter,. Rangkaian Inverter JFET, Inverter dengan IC Op Amp, Op Amp Differensiator

• Rangkaian Schmitt Trigger dan Komparator Tegangan: Operasi rangkaian Schmitt Trigger, Disain dengan Upper Trigger Point, Disain dengan Upper dan Lower Trigger Point, Pemilihan kapasitor speed up, Karakteristik Input Output, Op Amp sebagai Schmitt Trigger,. Rangkaian IC Schmitt Trigger, IC Voltage Comparator

• Generator Ramp dan Integrator: Generator Ramp RC, Constant Current Ramp Generator, Osilator Relaksasi UJT, Osilator Relaksasi Diode 4 layer, Osilator Relaksasi UJT yang dapat diprogram, Transistor Bootstrap Ramp Generator, IC Bootstrap Ramp


09‐201

4

6

Generator, Free Running Ramp Generator, Rangkaian Miller Integrator, Generator Triangular

• Monostable dan Astable Multivibrator dan IC Timer 555 : Bistable Multivibrator, Logic Gate

• Sampling gate: Pencacah digital, Frekuensi Meter Digital dan Voltmeter Digital, Pulse Modulation dan Multipleksing


• David A.Bell, Solid State Pulse Circuit, • Texas Instrument, National Instrument, Analog Device, Motorola

Instrument dll.


09‐201

4

7


TE091447: Perancangan Sistem Elektronika Analog TE091447: Design of Analog Electronic System Credits: 4Semester: V


Mahasiswa memahami secara mendalam tentang pentingnya komponen dan rangkaian elektronika analog serta aplikasi komponen dan rangkaian analog dalam sistim elektronika. Learning to implementation of analog components and circuits into the electronic systems.


• Mahasiswa mampu merancang sistim elektronika analog • Mahasiswa mampu merealisasikan rancangan tersebut

• Students are able to design the analog electronic systems • Students are able to realize the design of analog electronic systems


• Op‐amp ideal: comparator, summing amplifier, integrator, diferensial, converter dan aplikasi rangkaian op amp. Filter aktif: karakteristik respon, Low‐pass filter, High‐pass filter, Band‐pass filter, Band‐stop filter, pengukuran respon dan aplikasinya

• Osilator dan timer: osilator, feedback, sinusoidal, relaksasi, Timer 555, one‐shot dan aplikasinya.

• Voltage regulator: Seri‐shunt, switching regulator, IC voltage regulator dan aplikasinya. Amplifier penggunaan khusus: Instrumentation, Isolation, OTA, Log dan Antilog amplifier dan aplikasinya

• Rangkaian Elektronika untuk komunikasi: Linear amplifier, AM, FM, PLL dan aplikasinya

• Rangkaian konversi data: Analog switch, S/H, ADC, DAC, V/F dan F/V Converter dan aplikasinya

• Rangkaian pengukuran dan control: RMS to DC, Angle measurement, temperature, strain, pressure dan motion measurement, power control circuit dan aplikasinya

• Pengantar SPICE dan Field Programmable Analog Array (FPAA), Praktikum Rangkaian Elektronika Analog.

• Op‐amp circuits: amplifier, integrator, differential, converter, filter, isolation, log and anti‐log amplifier and oscillator circuits.

• Communication electronic circuits: Linear amplifier, amplitude and frequency modulation circuits.

• Measurement and control electronic circuits: RMS to DC, sensor and power control circuits


09‐201

4

8

• Introduction to SPICE and Field Programmable Analog Array (FPAA) • Analog electronic circuit Laboratory


• Thomas L Floyd and David Bucha, Fundamentals of Analog Circuit, Prentice‐Hall, 2002.

• M Jacob, Application and Design with Analog IC, Prentice‐Hall, 1993.


09‐201

4

9


TE091450: Divais Semikonduktor & Rangk. Terpadu TE091450: ICs and Semiconductor Devices Credits: 4Semester: VI


Mahasiswa mampu memahami teori divais semikonduktor dan konsep dasar perancangan rangkaian terpadu. Students can understand about semiconductor devices theory and concept of basic integrated circuit design


• Mahasiswa mampu memahami secara mandiri sifat divais semikonduktor.

• Mahasiswa mampu merencanakan dengan tepat sistim rangkaian terpadu.

• Students can understand by self about semiconductor devices • Students can design integrated circuit systems exactly


• Pita Energi dan konsentrasi pembawa meliputi bahan semikonduktor, struktur kristal, ikatan valensi, pita energi, kepadatan keadaan, konsentrasi pembawa intrinsic, donor dan akseptor

• Fenomena perpindahan pembawa yang meliputi hanyutan pembawa, diffussi pembawa, injeksi pembawa

• Persambungan p‐n yang meliputi kondisi suhu equilibrium, daerah deplesi, kapasitansi deplesi, karakteristik arus‐tegangan, kelakuan transient dan penyimpanan muatan, daerah patah persambungan

• Divais bipolar yang meliputi aksi transistor, karakteristik statis transistor bipolar, tanggapan frekuensi, transistor bipolar sebagai saklar, transistor bipolar heterojuntion, thyristor

• Divais unipolar yang meliputi hubungan semikonduktor dan metal,JFET, MESFET,MOS diode,MOSFET

• Divais Microwave yang meliputi Dioda Tunnel, Dioda IMPATT, Dioda BARITT

• Divais Photonic yang meliputi Transisi radiativ dan absorbsi optical, LED, Semikonduktor laser, photodetector, solar cell Diffussi dan Implantasi ion yang meliputi teori dasar diffussi, diffussi ekstrinsik, proses yang berhubungan dengan diffusi, distribussi dan range implantasi ion, proses yang berhubungan dengan implantasi ion

• Teknologi mikroelektronika layout dan design rule, teknik fabrikasi MOS, karakteristik rangkaian, beberapa teknik rangkaian: statis dan dinamis


09‐201

4

10

• Tools untuk perancangan IC: Microwind, perancangan sub‐system dan perancangan sistem terstruktur.

• Energy bands and carrier concentration that content of semiconductor materials, crystal structure, valence bonds, energy bands, state density, intrinsic carrier concentration, donors and acceptors.

• Carrier transport phenomena that content of carrier drift, carrier diffusion, carrier injection.

• p‐n junction that content of thermal equilibrium condition, depletion region, depletion capacitance, current‐voltage characteristics, charge storage and transient behavior, junction breakdown.

• Bipolar devices that content of transistor action, static characteristic of bipolar transistors, frequency response and switching of bipolar transistors, heterojunction bipolar transistors, the thyristor.

• Unipolar devices that content of metal‐semiconductor contacts, JFET, MESFET, MOS diode, MOSFET.

• Microwave devices that content of tunnel diode, IMPATT diode, BARITT diode.

• Photonic devices that content of radiative transitions and optical absorption, LED, semiconductor laser, photo detector, solar cell

• Diffusion and Ion Implantation that content of basic diffusion theory, extrinsic diffusion, diffusion‐related processes, distribution and range of implanted ions, implantation‐related processes.

• Technology of microelectronic layout and rule design that content of MOS fabrication engineering, circuit characteristics, some of circuit engineering:static and dynamic.

• Tools for IC design that content of microwind, sub‐system design and structure systems design.


• S.M. Sze, Semiconductor Devices Physics and Technology, John Wiley & Sons, 1985.

• Douglas A. Pucknell, Kamran Eshragian, Basic VLSI Design, System and Circuits, Prentice Hall, New Delhi, 1989.

• Neil H. Waste, Kamran Eshragian, Principles of VLSI Design‐ A System Perspective, Addisson‐Wesley New York, 1989.

• R.L. Geiger, P.E. Allen, N.R. Strader, VLSI Design Technique for Analog and Digital Circuit, McGraw‐Hill, 1990.


09‐201

4

11


09‐201

4

12


TE091451: Sistem Mikroprosesor & Mikrokontroler TE091451: Microprocessor & Microcontroller Sys. Credits: 4Semester: VI


• Mahasiswa memahami permasalahan dalam sistem mikrokontroler dan implementasinya dengan menggunakan komponen H/W programmable.

• Mahasiswa memahami prosedur perancangan sistem mikrokontroler menggunakan komponen H/W programmable.

• Mahasiswa dapat menggunakan tools (Assembly, CodeVision atau yang lainnya) untuk perancangan sistem mikrokontroler menggunakan komponen H/W programmable


• Mahasiswa dapat menggunakan komponen digital penunjang seperti gerbang dasar, buffer, Flip Flop, Register, Decoder, Encoder, Multiplekser dll untuk implementasi sistem mikrokontroler.

• Mahasiswa dapat melakukan perancangan sistem mikrokontroler berbasis pemrograman dengan metode perancangan yang benar serta menggunakan tools assembly, Codevision atau yang lainnya dengan benar.

• Mahasiswa menguasai bahasa pemrograman assembly atau yang lainnya dan dapat menggunakannya dengan baik dan benar.


• Konsep dasar Mikrokontroler : Struktur Mikrokontroler, Cara kerja Mikrokontroler, Keluarga Mikrokontroler MCS 51, Gambaran Umum

• Arsitektur Mikrokontroler: Diagram blok MCS 51, Fungsi kaki‐kaki MCS 51, Organisasi Memori : Program Memori, Data Memori, Register Mikrokontroler MCS 51

• Port I/O Mikrokontroler :, Port I/O parallel, Pembacaan dan penulisan port parallel, Port I/O serial,, Pembacaan dan penulisan port serial, Pengaturan baud rate, Komunikasi dengan banyak prosesor

• Timer/Counter dan Aplikasinya: Mode Operasi, Tentang Timer 2, Instruksi‐instruksi

• Logika Pemrograman: Kelompok instruksi, Instruksi transfer data, Instruksi aritmatika, Instruksi logika, Instruksi Percabangan

• Aplikasi : Aplikasi Tampilan Deret LED, Aplikasi Tampilan 7 segmen, Aplikasi Tampilan dengan LCD, Aplikasi Input DIPSWITCH dengan tampilan deret LED, Aplikasi Input DIPSWITCH dengan tampilan 7 segmen, Aplikasi Input DIPSWITCH dengan tampilan LCD, Aplikasi Input Keypad dengan tampilan deret LED, Aplikasi Input Keypad


09‐201

4

13

dengan tampilan 7 segmen, Aplikasi Input Keypad dengan tampilan LCD,. Aplikasi Multiplekser dan ADC dengan tampilan deret LED, Aplikasi Multiplekser dan ADC dengan tampilan 7 segmen, Aplikasi Multiplekser dan ADC dengan tampilan LCD, Aplikasi ADC dan LCD dan Serial RS232.


• Rachmad Setiawan, Mikrokontroler MCS51, Graha Ilmu 2006 • Kenneth J Ayala, The 8051 Microcontroller, Architecture,

Programming and Applications, West publishing Company, 1991 • Texas Instrument, National Instrument, Analog Device, Motorola

Intrument dll.


09‐201

4

14


TE091452: Perancangan Komponen Terprogram TE091452: Design of Programmable Device Credits: 4Semester: VI


• Mahasiswa memahami permasalahan dalam sistem digital dan implementasinya menggunakan komponen H/W programmable.

• Mahasiswa memahami prosedur perancangan sistem digital menggunakan komponen H/W programmable.

• Mahasiswa dapat menggunakan tools EDA untuk perancangan sistem digital menggunakan komponen H/W programmable.


• Mahasiswa dapat menggunakan komponen hardware (H/W) programmable seperti PLD (programmable logic device) dan FPGA (field programmable gate array) untuk implementasi sistem digital.

• Mahasiswa dapat melakukan perancangan sistem digital berbasis H/W programmable dengan metode perancangan yang benar serta menggunakan tools EDA (Electronic Design Automation) dengan benar.

• Mahasiswa menguasai bahasa VHDL dan dapat menggunakannya dengan baik dan benar.


• Overview Sistem Digital: Rangkaian kombinasional dan sekuensial, Kontroler dan data path, Finite State Machine (FSM).

• Sejarah dan evolusi H/W programmable: PROM, PAL, PLA, Masked gate Array, FPGA.

• Arsitektur H/W programmable: Blok logika, clock, I/O, interconnect, programmable switch, Blok‐blok khusus, Emulating dan Prototyping.

• Metodologi perancangan H/W programmable: Spesifikasi, Pemilihan komponen, perancangan, Verifikasi, Integrasi sistem, test.

• Desain teknik H/W programmable: Hardware Description Language (HDL), Top down design, One hot encoding, Design for Test, Built in self test (BIST), Signature analysis.

• Verifikasi: Simulasi, timing analysis, Vormal verification. • Tools EDA: Test bench, sintesa, place and route, programming

tools. • Studi Kasus: skimming book reviews skimming jurnal or articles.


• Totok Mujiono, Hand Out Mata Kuliah PKT, • Bob Zeidman, Designing with FPGAs and CPLDs, Elsevier, 2002 • Kevin Skahill, VHDL for Programmable Logic, Addison Wesley,

1996.


09‐201

4

15


09‐201

4

16


TE091453: Dasar Sistem Elektronika Cerdas TE091453: Fundamentals of Intelligent Electronic System. Credits: 4Semester: VI


Mahasiswa memahami prinsip‐prinsip dasar dari komponen‐komponen dalam sistem cerdas dan mampu mendisain sistem elektronika cerdas untuk aplikasi tertentu. To have an understanding of basic principles of components of intelligent systems, and to have a capability of designing a certain application of the intelligent electronic system.


• Mahasiswa memahami prinsip‐prinsip dan algoritma‐algoritma dalam artificial neural network (ANN) dan dapat menganalisis performansi dan dapat membangun program komputer untuk merealisasikan sistem cerdas dengan ANN.

• Mahasiswa memahami cara kerja semua subsistem dalam sistem fuzzy dan mampu merealisasika sebuah sistem fuzzy untuk aplikasi clustering dan kontrol.

• Mahasiswa memahami cara kerja evolutionary computation dan mampu merealisasikan untuk aplikasi optimasi.

• To have an understanding of basic principles and algorithms of artificial neural network (ANN), and to have a capability of performance analysis, developing computer program in realizing an ANN based intelligent system.

• To have an understanding of mechanisms of all subsystems in fuzzy system, and to have a capability in realizing fuzzy system for data clustering and control applications.

• To have understanding of mechanisms of evolutionary computation, and to have a capability in realizing the evolutionary computation for optimization problems.

•


• Konsep dasar sistem elektronika cerdas, dasar‐dasar neuroscience dan pemodelan neuron, model neural network feedforward & feedback, methoda pembelajaran neural network, competitive network, sistem logika fuzzy, fuzzy inference sistem, fuzzy clustering & control, evolutionary algorithm, genetic programming, aplikasi sistem elektronika cerdas.


09‐201

4

17

Concepts of intelligent systems, basic neuroscience and neuron models, feedforward & recurrent neural networks, learning methods, competitive networks, neural network applications, fuzzy system, fuzzy inference system, fuzzy clustering & control, evolutionary algorithm, genetic programming, applications of intelligent systems.


• Fredric M Hum, Ivica Kostanic, Principles of Neurocomputing for Science & Engineering, McGraw‐Hill Inc., 2001

• JSR Jang, CT Tsun, E. Mizutani, Neuro‐Fuzzy and Soft Computing, Prentice Hall Inc., 1997.

• NK Bose and P. Liang, Neural Network Fundamental, McGraw Hill, 1996.

• David B Fogel, Evolutionary Computation, IEEE Press. • Hua Li, M Gupta (Eds), Fuzzy Logic and Intelligent Systems, Kluwer

AcPress, 1995. • T. Ross, Fuzzy logic with Engineering Applications, McGraw Hill,

1995.


09‐201

4

18


TE091540: Elektronika Industri dan Otomasi TE091540: Industrial Electronics and Automation Credits: 4Semester: Pilihan


Mahasiswa mempelajari beberapa sistem rangkaian elektronika untuk aplikasi di Industri dan konsep dasar perencanaan produksi barang elektronika. Students learn some electronic circuit systems for applications in industry and the basic concept of electronic goods production planning


• Mahasiswa mampu memahami konsep dasar otomasi peralatan pada proses industri,

• Mahasiswa mampu memahami kebutuhan‐kebutuhan system peralatan elektronik di Industri,

• Mahasiswa mampu membuat konsep dasar pembuatan system produksi barang elektronik,

• Mahasiswa mampu mendesain diagram blok system kontrol pada peralatan Industri

• Mahasiswa mampu memahami konsep dasar aplikasi PLC (Programmable Logic Control)

• Mahasiswa mampu mendesain dengan tepat rangkaian elektronik untuk kebutuhan kontrol dan monitoring peralatan industri.

• Students are able to understand the basic concepts of automation

equipment in industrial processes, • Students are able to understand the needs of electronic equipment

systems in industry, • Students are able to make the basic concept of manufacturing

electronic goods production system, • Students are able to design the control system block diagram of

the Industrial equipment, • Students are able to understand the basic concept of application

PLC (Programmable Logic Control), • Students are able to design exactly the circuit board for control

and monitoring needs of industry equipment.


• Otomatisasi proses pengemasan semen bubuk: conveyor, sensor volume, sensor berat, timer, counter, penjahitan, sensor proximity, klasifikasi barang produksi, kontrol motor dc, dan monitoring system terpusat

• Catu daya: rectifier half & full wave, regulator tegangan, dan penguat arus


09‐201

4

19

• Monitoring barang produksi: up‐counter, proximity switch, system transduser ultrasonic, system rangkaian opto‐transistor, load cell, selenoide, converter analog to digital, RS‐232 to current loop, RS‐232 to 485 dan system komunikasi data terpusat (PC‐base, mikrokontroler, dan PLC)

• Pengontrolan peralatan produksi: rangkaian SCR, rangkaian TRIAC, rangkaian UJT, rangkaian Power transistor, rangkaian kontrol motor dc, dan rangkaian telekontrol peralatan produksi secara terpusat (PC‐base, mikrokontroler, dan PLC);

• Green design: charger battery, system PLTS, inverter, UPS, lampu elektronik hemat listrik, dan system manajemen energy listrik pelanggan kecil dan menengah.

• The scope of the Industrial Electronics; Automation of cement powder packaging process: conveyor, the sensor volume, weight sensors, timers, counters, sewing, proximity sensors, the classification of goods production, dc motor control, and centralized monitoring system; Power supply: half & full rectifier wave, voltage regulator, and amplifier currents; Monitoring the production of goods: up‐counter, proximity switches, ultrasonic transducer system, the system OPTO‐transistor circuits, load cell, selenoide, analog to digital converter, RS‐232 to current loop, RS‐232 to 485 and centralized data communications system (PC‐base, microcontroller, and PLC); Control of production equipment: a series of SCR, TRIAC circuits, UJT circuits, Power transistor circuit, dc motor control circuit, and circuit telekontrol centralized production equipment (PC‐base, microcontroller, and PLC); Green design: battery charger, PLTS system, inverter, UPS, power‐efficient electronic lighting, and electrical energy management system small and medium customers.


• Timothy J. Maloney, Modern Industri Electronics, 4/E, Prentice‐Hall, Inc.,2001

• A.P. Connolly, R.W. Fox, SCR Manual Including Triac, and Other Thyristor, Six Edition, General Electric, © 1979.

• On Semiconductor, Thyristor Theory and Design Considerations Handbook, SCILLC,© 2005

• www.agilent.com/find/assist, DC Powe Supply Handbook, Agilent Technologies, ©1978, 2000

• P.R.K. Chetty, Switching‐Mode Power Supply Design, BPB Publications,B‐14, Connaught Place, New Delhi‐1, © 1987


09‐201

4

20


TE091541: Machine Vision TE091541: Machine Vision Credits: 2Semester: Pilihan


Mahasiswa mampu memahami, menganalisa, dan merancang aplikasi machine vision Giving knowledge to the students in order to understand the machine vision principles and its applications


• Mahasiswa mampu memahami aplikasi machine vision. • Mahasiswa mampu menganalisa aplikasi machine vision. • Mahasiswa mampu merancang aplikasi machine vision

• Students are able to analyze the machine vision systems • Students are able to design the machine vision systems.


• Pendahuluan meliputi konsep dasar machine vision, akuisisi citra (image), representasi citra (image)

• Image pre‐processing meliputi pixel brightness transformations, geometric transformations, local pre‐processing

• Segmentation meliputi thresholding, edge‐based segmentation, maching

• Shape representation meliputi contour‐based shape representation, region‐based shape representation

• Image understanding meliputi image understanding strategy, pattern recognition methods

• 3D vision meliputi 3D vision task, geometry for 3D vision, radiometry and 3D vision; Motion analysis meliputi differential motion analysis method, optical flow.

• Introduction includes basic concept of machine vision, image acquisition, image representation, image pre‐processing

• Segmentation includes thresholding, matching; • Shape representation includes contour‐based shape

representation, region‐based shape representation; • Image understanding includes image understanding strategy,

pattern recognition methods • 3D vision includes 3D vision task, geometry for 3D vision,

radiometry and 3D vision PUSTAKA UTAMA/

• Linda G. Shapiro, Computer Vision, Prentice‐Hall, Inc., 2001 • Milan Sonka dkk, Image Processing: Analysis, and Machine Vision,


09‐201

4

21

REFERENCES Brooks and Cole Publishing, 1998. • Ramesh Jain, Machine Vision, McGraw‐Hill, Inc., 1995 • Gary Bradski and Adrian Kaehler, Learning OpenCV: Computer

Vision with OpenCV Library, O’Reilly Media, Inc., 2008


09‐201

4

22


TE091542: Robot Industri TE091542: Industrial Robot Credits: 2Semester: Pilihan


Mahasiswa mampu memahami dan menganalisa aplikasi robot di industry Giving knowledge to the students in order to understand the industrial robot and its applications.


• Mahasiswa mampu memahami aplikasi robot di industri. • Mahasiswa mampu menganalisa aplikasi robot di industri.

• Students are able to analyze the industrial robot system. • Students are able to design the industrial robot system.


• Pendahuluan meliputi robot industri, struktur mekanik robot • Kinematika meliputi kinematika robot industri, metoda Denavit‐

Hartenberg, joint space dan operational space, problem kinematika balik

• Trajectory planning meliputi path and trajectory, joint space trajectories, operational space trajectories

• Sensor dan aktuator meliputi joint actuating system, drives, proprioceptive sensors, exteroceptive sensors

• Motion control meliputi problem kontrol, joint space control, operational space control

• Force control meliputi interaksi robot dan lingkungan, compliance control, impedance control, hybrid position/force control

• Visual servoing meliputi vision for control, position‐based visual servoing, image‐based visual servoing.

• Introduction includes robots in industry, mechanical structure of robot, sensors and actuators.

• Kinematics includes forward kinematics, joint space and operational space, Denavit‐Hartenberg (DH) method, inverse kinematics problem.

• Trajectory planning includes path and trajectory, joint space trajectories, operational space trajectories.

• Motion control includes joint space control, operational space control, compliance control, impedance control, hybrid position/force control.


09‐201

4

23

• Visual servoing includes vision for control, position‐based visual servoing, image‐based visual servoing.


• Bruno Siciliano, dkk, Robotics: Modeling, Planning and Control, Springer‐Verlag Limited, 2009.

• Appin Knowledge Solution, Robotics, Infinity Science Press, 2007. • Lung‐Wen Tsai, Robot Analysis, John Wiley and Sons, Inc., 1999. • IEEE Transactions on Robotics and Automation


09‐201

4

24


TE091543: Sistem Kontrol Elektronika TE091543: Electronic Control System Credits: 2Semester: Pilihan


Mahasiswa mampu memahami, menganalisa, dan merancang sistem kontrol elektronika analog dan digital. Giving knowledge to the students in order to understand the analog and digital electronic control system


• Mahasiswa mampu memahami aplikasi elektronika pada sistem kontrol.

• Mahasiswa mampu menganalisa sistem kontrol di industri. • Mahasiswa mampu merancang sistem kontrol untuk aplikasi

spesifik

• Students are able to analyze the electronic control system. • Students are able to design the electronic control system.


• Pendahuluan meliputi terminologi sistem kontrol, sejarah dan tren mendatang, overview kontrol analog dan digital

• Pemrosesan sinyal meliputi domain waktu, domain frekuensi, kriteria kestabilan

• Algoritma perancangan konvensional meliputi PID, root locus, respon frekuensi

• Sistem kontrol berbasis state variable meliputi pole placement, state observer, state feedback dengan kontrol integral

• Implementasi sistem kontrol meliputi sistem identifikasi, kontrol berbasis op‐amp, kontrol digital berbasis mikroposesor

• Neural network dan fuzzy system meliputi kontrol dengan neural network, perancangan fuzzy controller, neuro‐fuzzy controller.

• Introduction includes history and future trend, overview of analog and digital control, signal processing.

• Classic design algorithm includes PID, root locus, frequency response.

• State variable‐based control system includes pole placement, state observer, state feedback with integral control.

• Control system implementation includes system identification, op‐amp‐based analog control, microprocessor‐based digital control.

• Neural network and fuzzy system includes neural network‐based


09‐201

4

25

control system, fuzzy logic control system, neuro‐fuzzy control system.


• M. Sam Fadali, Digital Control Engineering: Analysis and Design, Elsevier Inc., 2009.

• Chi‐Tsong Chen, Analog and Digital Control System Design, Saunders College Publishing, 2005.

• M Gopal, Digital Control and State Variable Methods: Conventional and Neuro‐Fuzzy Control System, McGraw Hill Inc., 2003

• Kevin M. Passino and Stephen Yurkovich, Fuzzy Control, Addison‐Wesley Longman, Inc., 1998


09‐201

4

26


TE091544: Divais Optoelektronika TE091544: Optoelectronic Devices Credits: 2Semester: Pilihan


Mahasiswa mampu memahami dan menganalisa sistem optoelektronika beserta aplikasinya. Learning to optoelectronic device, component and system and its applications


• Mahasiswa mampu memahami secara mandiri sifat divais optoelektronika terbaru.

• Mahasiswa mampu merencanakan dengan tepat sistim optoelektronika pada berbagai bidang aplikasi

• Students are able to understand the characteristics of the latest optoelectronic devices

• Students are able to design the optoelectronic system in various fields of applications


• Sifat cahaya: pemantulan, pembiasan, polarisasi, superposisi, interferensi dan difraksi, spectrum cahaya, monokromator.

• Modulasi cahaya: Electro‐Optic Effect, Magneto‐Optic Effect, Acousto‐Optic Effect. Displai: Cathode Ray Tube (CRT), Light Emitting Diode, LCD dan Plasma, Laser: dasar pembangkitan laser benda padat‐isolator, semiconductor, laser zat cair, laser gas dan teknik Q‐switching.

• Detektor optik: thermo‐electric, balometer, pneumatic, pyroelectric, vacuum photodiode, photomultiplier, photoconductive, photo diode, avalanche photodiode, schotthy photodiode, vidicon, pumblicon, CCD, digital camera.

• Serat optik: Fiber Dispersions, Multimode step‐index fiber, Single‐mode fiber, Graded‐index fiber, Fiber Losses, Optical Time‐Domain Reflector (OTDR).

• Optika terpadu: penjalaran cahaya dalam pandu gelombang, pembuatan slab\strip waveguide, modulator, switch, multiplexer, splitter.

• Sistem komunikasi serat optik: Free Space Communication, Fiber Optical Communication System, Power Budget, Rise Time (Bandwidth) Budget, Multichannel Communication System, Code‐Division Multiplexing (CDM), Coherent Optical Communication.

• Aplikasi teknologi optoelektronika: Pengukuran jarak, spectrophotometer, optical storage, holografi.

• Light: nature and modulation of light


09‐201

4

27

• Optical devices: LED, LCD, Plasma, pyroelectric, photomultiplier, CCD, waveguide, switch and splitter

• Laser: insulator, semiconductor, liquid dye and gas lasers • Optical communication system: Fiber Optics, Optical Fiber

Communication System, Power and Bandwidth Budget • Optoelectronics applications: distance measurements, spectro‐

photometer, optical storage and holography


• J Wilson and JFB Hawkes, Optoelectronics: An Introduction, Prentice Hall, 1998.

• Ronald W. Waynant and Marwood N. Ediger, Electro‐Optics Handbook, McGraw‐Hill, 2000.

• Michael Bass, Handbook of Optics: Fiber Optics & Nonlinear Optics, McGraw‐Hill, 2001

• Chinlon Lin, Optoelectronic Technology and Lightwave Communications Systems, Van Nostrand Reinhold, 1989.

• Mark Johnson, Photodetection and Measurement: Maximizing Performance in Optical Systems, McGraw‐Hill, 2003


09‐201

4

28


TE091545: Instr. & Pengolahan Sinyal Biomedika TE091545: Instrumentation & Processing of Biomedical Signal Credits: 4Semester: Pilihan


Mahasiswa memahami prinsip‐prinsip dan pengukuran dan instrumentasi dan sistem pemrosesan sinyal biomedika dan mampu mengembangkannya dalam praktek. To have understanding of principles of measurment and instrumentation, and processing system of biomedical signals, and to have abilities to apply them in practial use


• Mahasiswa memahami dan terampil menerapkan prinsip‐prinsip pengukuran dan instrumentasi biomedika.

• Mahasiswa memahami dan mampu menerapkan mathematical tool untuk pemrosesan sinyal biomedika.

• Mahasiswa mampu merealisasikan sistem yang merupakan integrasi sistem instrumentasi dan sistem pemrosesan sinyal biomedika

• To have understanding and ability to apply basic principles of biomedical signal measurments and instrumentations.

• To have understanding and ability to utilize mathematical tolls for biomedical signal processing.

• To have capability in integrating instrumentation and processing system of biomedical signals.


• Transduser dalam bidang biomedika • Sinyal biopotensial • Pengkondisi sinyal biopotensial • Pengamanan dalam instrumentasi biomedika • Digital filter untuk pemrosesan sinyal

• Biomedical transducers, biopotential signals: origin,

generation, & characteristics, biopotential signal conditioning, safety in biomedical instrumentation, electrical surgery unit (ESU), digital filter for biomedical signal analysis, frequency-based analysis, time-frequency analysis, case studies


09‐201

4

29


• J. G. Webster, Medical Instrumentation, Application and Design, Houghton Mifflin Co, 1978

• Metin Akay (Ed), Biomedical Signal Detection, IEEE Press. • J Bronzino (Ed), Biomedical Engineering Handbook, IEEE Press.


09‐201

4

30


TE091546: Teknik Biomedika TE091546: Biomedical Engineering Credits: 2Semester: Pilihan


Mahasiswa mampu mengembangkan sistem modeling dan analisa sistem biomedika untuk neural engineering, welfare, dan rehabilitation engineering. To have a capability of developing modeling and analysis of biomedical system, i.e., neural engineering, welfare engineering, and rehabilitation engineering.


• Mahasiswa memahami bidang‐bidang disiplin dalam biomedical engineering.

• Mahasiswa mampu memanfaatkan mathematical tool untuk mengembangkan sistem modeling dan analisa sistem biomedika untuk kepentingan neural engineering, welfare engineering & rehabilitation engineering.

• To have an understanding of biomedical engineering disciplines.

• To have a skill in utilizing mathematical tools for developing a modeling system and analysis of biomedical system, i.e., neural engineering, welfare engineering & rehabilitation engineering


• Disiplin biomedical engineeering • analisa dan pemodelan biomedika: nervous system, musculo‐

skeletal system, cardiac system, biomekanika, • welfare engineering, • rehabilitation engineering, • review jurnal.

• Biomedical engineering discipline • Biomedical analysis and modeling: nervous system, musculo‐

skeletal system, cardiac system, biomechanical • welfare engineering, • rehabilitation engineering • journal review

PUSTAKA UTAMA/

• J Bronzino (Ed), Biomedical Engineering Handbook, IEEE Press. • Mark L Latash, Neurophysiological Basis of Movement, Human


09‐201

4

31

REFERENCES Kinetics, USA, 1998. • Roger M Enoka, Neuromechanics of Human Movement, Human

Kinetics, USA, 3rd Ed, 2002. • RB Northrop, Introduction to Dynamic Modeling of Neuro‐sensory

Systems, CRC Press, 2001.


09‐201

4

32


TE091547: Biomekanika TE091547: Biomechanics Credits: 2Semester: Pilihan


Mahasiswa memahami landasan theori dan prinsip biomekanika dengan penekanan pada biomekanika gerakan manusia. To have an uderstanding in fundamental theories and principles of biomechnis (emphasized in biomechanis of human movements).


• Mahasiswa memahami karakteristik data biomekanika dan cara pengukurannya

• Mahasiswa memahami biomekanika gerakan manusia • Mahasiswa mamapu memanfaatkan prinsip‐prinsip dalam

biomekanika untuk analisa gerakan manusia.

• To have understanding of charateristsics of biomechanical data and it’s measurement techniques.

• To have understanding of biomechanics of human movements.

• To have ability to utilize biomecanical principles to analyse human movement


• Pendahuluan: besaran dan satuan dalam mekanika, prinsip‐prinsip dasar mekanika, mekanika terapan, biomekanika, Gaya, moment, dan torsi, Analisa Statika dalam Biomekanika, Pengantar Ilmu Gerakan Manusia: goniometeri dan pengukuran gerakan manusia, Kinematika dan Dynamika, Human Movement Analysis, Defomarble body mechanics, Mechanical Properties of biological tissue

• Basic principles of mechanics, engineering mechnis, biomechanics, force, moment, static analyis, introductory human movement science: goniometry and human movement measurement, kinematics and dynamics, human movement analysis, defomarble body mechanics, mechanical properties of biological tissue

PUSTAKA UTAMA/

• Nihat Ozkaya, and Margareta Nordin, Fundamentals of Biomechanics: Equilibrium, motion, and deformation, 2nd edition, Springer‐Verlag, New York, Inc., 1999.


09‐201

4

33

REFERENCES • B. M. Nigg and W Herzog, Biomechanics of the musculo‐skeletal system, John Willey & Sons., Inc. 1995.

• Jack M. Winters, and Patrick F. Cargo (Eds.), Biomechanics and Neural Control of Posture and Movements, Springer‐Verlag, NY, Inc., 2000.

• M. Enoka, Neuromechanics of Human Movements, 3rd editon, Human Kinetics, IL, 2002.

• J. Perry, Gait analysis: Normal and Pathological Functions, Slack Inc., NJ, 1992.

• M.W. Whittle, Gait analysis: an Introduction, Butterworth Heinemann, 3rd edition, Edinburg, 2002.

• Mark D. Grabiner, Current issues in biomechanics (Ed), Human Kinetics, 1993, USA.


09‐201

4

34


TE091548: Anatomi dan Fisiologi TE091548: Anatomy and Physiology Credits: 2Semester: Pilihan


Mahasiswa memahami dasar‐dasar anatomi tubuh manusia dan fisiologi sell hingga sistem organ tubuh manusia dan mampu memanfaatkan pemahaman tersebut dalam disiplin rekaysa biomedika. To have an understanding of fundamentals of anatomy and physiology of human body from cellular level to system organ level, and to have a capability to use the understanding in developing other understanding in biomedical engineering fields.


• Mahasiswa memahami anatomi tubuh manusia. • Mahasiswa memahami fisiologi manusia dari tingkat sel hingga

sistem organ.

• To have an understanding in anatomy of human body. • To have an understanding of physiology of human body.


• Cakupan anatomi dan fisiologi, anatomi dan fisiologi sell, anatomi dan fisiologi jaringan, sistem syaraf, sistem rangka, sistem otot, sistem kardiovaskular, sistem pulmonari, telaah jurnal bidang applied physiology, biomechanis, dll.

Scopes of anatomy and physiology, cellular level anatomy and physiology, tissue level anatomy and physiology, nervous system, skeletal system, muscular system, cardiovascular system, pulmonary system, selected topics from journal papers: applied physiology, biomechanics, etc.


• Wynn Kapit et. al., Anatomy Coloring Book, Benjamin Cumings Science Publishing, USA, 3rd Ed, 2002.

• Wynn Kapit et. al., Physiology Coloring Book, Benjamin Cumings Science Publishing, USA, 2nd Ed, 2000.

• Frederic H Martini et. al., Fundamentals of Anatomy and Physiology, Prentice Hall Intl. Inc., USA, 5th Ed, 2001.


09‐201

4

35

• Mark L Latash, Neurophysiological Basis of Movement, Human Kinetics, USA, 1998.

• Roger M Enoka, Neuromechanics of Human Movement, Human Kinetics, USA, 3rd Ed, 2002.


09‐201

4

36


TE091549: Topik Khusus Elektronika TE091549: Special Topics in Electronics Credits: 2Semester: Pilihan


Mahasiswa mampu mengetahui dan memahami perkembangan terkini bidang elektronika. To have ability to understand the current development on electronics engineering


• Mahasiswa mampu memahami aplikasi elektronika terkini. • Mahasiswa mampu mengaplikasikan salah satu perkembangan

teknik elektronika terkini. • Mahasiswa mampu memberikan analisa perbandingan

perkembangan terakhir bidang elektronika.

• To have ability to understand the current electronics application. • To have ability to apply the current electronic engineering

development. • To have ability to analyze and compare the current development in

electronics engineering.


• Perkembangan terbaru di bidang device, • rangkaian dan sistem elektronika, • Computer aided design dan simulation. • Aplikasi terbaru dalam bidang elektronika yang meliputi

elektronika biomedika dan industri.

• New development on devices technology • Electronic Circuit and system • Computer aided design dan simulation • Newest application on electronics, biomedical and industrial

electronics


• Journal IEEE, CAS


09‐201

4

37

Silabus Kurikulum Elk

Documents